Subheader Icon 877-412-3651
Request a quote
Article Engineers Try Out Material Combinations to Create Stretchy Electronics Image

Engineers have been trying to develop durable flexible electronics for quite some time now, envisioning numerous applications concerning wearables and “smart clothing”. The team that is close to cutting the ribbon first is a group of researchers from the MIT and University of Wisconsin, in the United States.

The same team of engineers has been working on this project since 2017, and they have previously presented a couple of exciting tentative approaches, so this isn’t coming as a surprise.

The most recent creation demonstrates a “peel and stack” approach that the engineers use to create films of oxide materials. The peel concerns the controlled removal of a very thin (100 nm) layer, and the stacking of layers of different materials (cobalt, ferrite) to create a single electronic unit. The team feels like they’re building with “LEGO” blocks, as they place wafer upon wafer to end up with a functional device.

The great thing about this method is that the engineers don’t have to consider the crystalline pattern differences between the various materials, so the limitations of the traditional epitaxy techniques don’t apply on the “peel and stack”. As the team’s leader puts it, whatever you can imagine, you can realize it through this method. Already, they have made sensors, solar cells, small batteries, and computing chips.

Different combinations of materials are ideal for different electronic units, so there’s a lot of experimentation left to be done yet.

Thankfully for the team, DARPA (Defense Advanced Research ProjectsAgency) is supporting their effort, as the U.S. Army would be very interested in deploying flexible chips in military uniforms.

Flexible chips could be used to measure and communicate the soldier’s biometric data, geographic location, status, and more, and DARPA has been actively trying to deliver something tangible in this sector for years now.

Related Articles

Latest China Moves Closer to Opening Deep Geological Nuclear Waste Lab Nearly 1,837 Feet Below Surface Image
Construction

China Moves Closer to Opening Deep Geological Nuclear Waste Lab Nearly 1,837 Feet Below Surface

A Critical Step for Long-Term Nuclear Safety China is nearing a major milestone in its nuclear energy program as engineers push forward with a deep geological research laboratory designed to study the safe disposal of radioactive waste. Known as the Beishan Underground Research Laboratory, the facility is taking shape in the remote Gobi Desert in Gansu province. As a result, when completed, it

Latest A Guide to Purchasing Inconel: Tips and Considerations Image
Aerospace

A Guide to Purchasing Inconel: Tips and Considerations

Inconel® is a family of nickel-chromium superalloys known for high strength, corrosion resistance, and oxidation resistance at elevated temperatures. Well-suited to demanding applications, Inconel alloys typically comprise 50–70% nickel, 15–25% chromium, and other elements such as iron, cobalt, molybdenum, and tungsten. The specific composition of an Inconel alloy depends on its intended applicati

Latest Hyundai Steel Plans Hydrogen-Ready Low-Carbon Mill in Louisiana Image
Industry News

Hyundai Steel Plans Hydrogen-Ready Low-Carbon Mill in Louisiana

Hyundai Steel plans to build a hydrogen-ready low-carbon steel mill in Ascension Parish, Louisiana. The project carries an estimated cost of $6 billion and marks the company’s first U.S. steelmaking facility. State officials say the mill will support automotive, energy, and industrial markets that need cleaner flat-rolled and long-product supply. The plant forms part of Hyundai’s broader push t

Latest 3D-Printed Metal Matrix Composite Could Boost High-Temperature Aerospace Components Image
Aerospace

3D-Printed Metal Matrix Composite Could Boost High-Temperature Aerospace Components

A research team at the University of Toronto has created a metal matrix composite that stays light, strong, and stable at temperatures where most aluminum alloys fail. The material is produced through a combination of laser-based additive manufacturing and micro-casting, giving it a reinforced-concrete-like architecture on a microscopic scale. That structure delivers strength at both ambient and e